Abstract: A system of thermally managing network equipment including a rack housing a network equipment element, an intake coupling including one or more vanes and an exhaust port, a duct, and a rack coupling mechanism configured to adjustably position the intake coupling relative to the rack. The intake coupling is configured to: receive an airflow from the hot air exhaust vent at a first direction; deflect the airflow in a second direction via the one or more vanes; and exhaust the airflow through an opening in the exhaust port.

Abstract: A system of thermally managing network equipment including a rack housing a network equipment element, an intake coupling including one or more vanes and an exhaust port, a duct, and a rack coupling mechanism configured to adjustably position the intake coupling relative to the rack. The intake coupling is configured to: receive an airflow from the hot air exhaust vent at a first direction; deflect the airflow in a second direction via the one or more vanes; and exhaust the airflow through an opening in the exhaust port.

Abstract: Aspects of the present disclosure disclose systems and methods for controlling the operation and shut down of a plurality of HVAC units in a facility to improve efficiency. More particularly, a target number of inefficient HVAC units may be identified and systematically shut down while monitoring the environmental conditions in the facility to determine if additional HVAC units may be shut down or alternately should be restarted automatically.

Abstract: A system of thermally managing network equipment including a rack housing a network equipment element, an intake coupling including one or more vanes and an exhaust port, a duct, and a rack coupling mechanism configured to adjustably position the intake coupling relative to the rack. The intake coupling is configured to: receive an airflow from the hot air exhaust vent at a first direction; deflect the airflow in a second direction via the one or more vanes; and exhaust the airflow through an opening in the exhaust port.

Abstract: A system of thermally managing network equipment including a rack housing a network equipment element, an intake coupling including one or more vanes and an exhaust port, a duct, and a rack coupling mechanism configured to adjustably position the intake coupling relative to the rack. The intake coupling is configured to: receive an airflow from the hot air exhaust vent at a first direction; deflect the airflow in a second direction via the one or more vanes; and exhaust the airflow through an opening in the exhaust port.

Abstract: Aspects of the present disclosure disclose systems and methods for controlling the operation and shut down of a plurality of HVAC units in a facility to improve efficiency. More particularly, a target number of inefficient HVAC units may be identified and systematically shut down while monitoring the environmental conditions in the facility to determine if additional HVAC units may be shut down or alternately should be restarted automatically.

Abstract: A modular enclosure system and kit for containing and regulating the flow of air in and around data center and gateway facility equipment (e.g., server racks, equipment racks, cabinets, data storage libraries). The modular enclosure system can readily be adapted to differing types of equipment and to the differing cooling needs of different equipment. The system includes lightweight, thermally insulated, modular, interconnectable wall and ceiling panels adapted to enclose the equipment and an inflow of cool air, vent panels adapted to regulate the flow of air into and out of the enclosure, and cable ports that allow cables to pass into and out of the enclosure while minimizing bypass airflow.